eekay/gemma-2b-it-lion-numbers-ft-exp
Hugging Face
TEXT GENERATIONConcurrency Cost:1Model Size:2.5BQuant:BF16Ctx Length:8kPublished:Dec 14, 2025Architecture:Transformer Warm

The eekay/gemma-2b-it-lion-numbers-ft-exp is a 2.5 billion parameter instruction-tuned language model based on the Gemma architecture, developed by eekay. This model is fine-tuned with a context length of 8192 tokens. Its specific fine-tuning for "lion-numbers" suggests an optimization for numerical reasoning or mathematical tasks. It is suitable for applications requiring efficient processing of numerical data and instruction following within its parameter and context constraints.

Loading preview...

Model Overview

The eekay/gemma-2b-it-lion-numbers-ft-exp is an instruction-tuned language model with approximately 2.5 billion parameters, built upon the Gemma architecture. It supports a context length of 8192 tokens, making it capable of processing moderately long inputs for its size. The model's name, specifically "lion-numbers-ft-exp," indicates that it has undergone experimental fine-tuning focused on numerical understanding and processing, likely aiming to enhance its performance in quantitative tasks.

Key Characteristics

  • Architecture: Based on the Gemma family of models.
  • Parameter Count: 2.5 billion parameters, offering a balance between performance and computational efficiency.
  • Context Length: 8192 tokens, allowing for substantial input and output sequences.
  • Specialized Fine-tuning: Explicitly fine-tuned for "lion-numbers," suggesting an emphasis on numerical reasoning, mathematical operations, or data interpretation.

Potential Use Cases

Given its specialized fine-tuning, this model is potentially well-suited for:

  • Numerical Reasoning: Tasks involving calculations, data analysis, or understanding quantitative relationships.
  • Instruction Following: Executing commands and generating responses based on specific instructions, particularly those with numerical components.
  • Efficient Deployment: Its 2.5B parameter size makes it a candidate for applications where computational resources are a consideration, offering a more lightweight alternative to larger models while still providing specialized capabilities.